Xianbo Shi, M. Highland, Matthew G. Frith, L. Gades, O. Quaranta, Runyu Zhang, L. Rebuffi, L. Assoufid
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引用次数: 0
摘要
我们在开发用于先进光子源(APS)光学表征和光束线诊断的波长x射线技术和工具方面取得了重大进展。在过去的几年里,先进的技术,如基于编码掩模的方法,通常用于APS和APS升级项目的28-ID-B仪器开发,评估和分析(IDEA)波束线和1-BM光学和探测器测试波束线的透镜,镜子,晶体和窗口的表征。本文综述了近年来我们在开发波长测量工具方面取得的成就,以及在APS升级光束线的表征和开发先进折射光学方面的活动。我们总结了数百种商用透镜的质量评估结果,重点介绍了测量过程和数据在转换器设计中的应用。然后,我们讨论了aps制造的用于高能(>40 keV)聚焦的硅化合物折射透镜(CRLs)的特性,以及它们在CHEX光束线(原位科学相干高能x射线部门)中的潜在应用。采用深度反应离子刻蚀法(Deep Reactive Ion Etching, DRIE)制备了不同设计参数的硅荧光二极管(CRLs)。波长测量结果表明,硅荧光二极管是高能聚焦光学器件的理想选择。
Advances in at-wavelength metrology of x-ray optics at the Advanced Photon Source
We have made significant progress in developing at-wavelength X-ray techniques and tools for optics characterization and beamline diagnostics at the Advanced Photon Source (APS). In the past few years, advanced techniques, such as the coded-mask-based method, are routinely used to characterize lenses, mirrors, crystals, and windows for APS and the APS upgrade projects at the 28-ID-B Instrumentation Development, Evaluation & Analysis (IDEA) Beamline and the 1-BM optics and detectors testing beamline. This paper reviews our recent achievements in developing at-wavelength metrology tools and activities in characterizing and developing advanced refractive optics for the APS upgrade beamlines. We summarize the quality evaluation results of hundreds of commercial lenses and highlight the measurement procedures and application of data in designing transfocators. We then discuss the characterization of APS-fabricated silicon compound refractive lenses (CRLs) for high-energy (>40 keV) focusing, and their potential application for the CHEX beamline (Coherent High- Energy X-ray Sector for In Situ Science). Silicon CRLs fabricated by Deep Reactive Ion Etching (DRIE) with different design parameters were evaluated at the IDEA beamline. At-wavelength metrology results show that silicon CRLs are promising options as high-energy focusing optics.